library("ggplot2")
library("dplyr")
Warning: package ‘dplyr’ was built under R version 4.1.2

Attaching package: ‘dplyr’

The following objects are masked from ‘package:stats’:

    filter, lag

The following objects are masked from ‘package:base’:

    intersect, setdiff, setequal, union

Hypergate takes in 1. an expression matrix 2. a vector of events to attempt to gate on - there are different ways to get these

interactive gating - try later Clustering - this is what I want to use

hypergate is the function to optomize gating strategies

xp = a numberic matrix encoding expression gate_vector a vector with a few unique values — this should be the cluster labels level specifies what value of gate vector togate upon


hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = 'Astro1')
Error: vector memory exhausted (limit reached?)

I’ll need to downsample the seurat object

# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'scale.data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$labels)


hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = 'Astro1')

Try checking the results


table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels == 
    'Astro1', "Events of interest", "Others"))
           
            Events of interest Others
  Gated-in                 182     29
  Gated-out                 18   3458

Now we can see if each cell past parameters for the threshold for each AB

table(bm)
bm
FALSE  TRUE 
 8787 46518 

Plots some gates


plot_gating_strategy(gate = hg_output, xp = xm.t, gate_vector = cluster.labels, 
    level = 'Astro1', highlight = "firebrick3")
Warning in plot_gating_strategy(gate = hg_output, xp = xm.t, gate_vector = cluster.labels,  :
  path argument is missing, output won't be saved to file

Channel contributions

print(contributions)
   CD44_min HepaCAM_max    CD44_max    CD24_max   CD184_max   CD184_min    CD29_max   GLAST_max 
0.373515389 0.000000000 0.106921365 0.119328979 0.112535525 0.165172328 0.067667241 0.032497916 
   CD56_max   CD133_max    CD15_max    CD71_max    AQP4_max   CD133_min   GLAST_min 
0.061320445 0.028501912 0.031184675 0.024468298 0.012743090 0.004288837 0.004288837 

We could reoptimize using only the top 4 But right now I’ll leave this

hgate_pheno(hg_output)
[1] "CD44+, HepaCAM-, CD44-, CD24-, CD184-, CD184+, CD29-, GLAST-, CD56-, CD133-, CD15-, CD71-, AQP4-, CD133+, GLAST+"
hgate_rule(hg_output)
[1] "CD44 >= -0.07, HepaCAM <= 0.41, CD44 <= 1.22, CD24 <= 0.27, CD184 <= 0.56, CD184 >= -0.36, CD29 <= 0.29, GLAST <= 0.19, CD56 <= 0.22, CD133 <= 0.13, CD15 <= 0.24, CD71 <= 0.28, AQP4 <= 0.36, CD133 >= -0.67, GLAST >= -0.25"
hgate_info(hg_output)

I need to define the groups I want to gate first and then use this to gate them.


RidgePlot(seu.down, features = "CD44", log = TRUE )
Scale for 'x' is already present. Adding another scale for 'x', which will replace the existing scale.
Warning in self$trans$transform(x) : NaNs produced
Warning: Transformation introduced infinite values in continuous x-axis
Picking joint bandwidth of 0.134
Warning: Removed 32 rows containing non-finite values (stat_density_ridges).

RidgePlot(seu.down, features = "CD24", log = TRUE )
Scale for 'x' is already present. Adding another scale for 'x', which will replace the existing scale.
Warning in self$trans$transform(x) : NaNs produced
Warning: Transformation introduced infinite values in continuous x-axis
Picking joint bandwidth of 0.161
Warning: Removed 816 rows containing non-finite values (stat_density_ridges).

Regroup the similar for gating and remove mix cells that might confuse

table(seu.down$labels.groups)

               Mix      Neurons-CD24+        Astro-CD44+          RG-CD184+          RG-CD133+ 
                 0                400                400                400                400 
      Astro-Glast+        Endothelial      Neurons-CD56+ Neurons-CD24+CD56+              Oligo 
               400                400                400                400                400 
        Epithelial 
               400 

Hypergate on one group


for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}
[1] "Neurons-CD24+"
           
            Neurons-CD24+ Others
  Gated-in            353     42
  Gated-out            47   3558
[1] "CD24 >= 0.08, GLAST <= 0.32, CD71 <= 0.45, CD56 <= 1.09, CD133 <= 0.37, CD184 >= -1.06, CD15 <= 0.29, HepaCAM >= -0.44, CD184 <= 3.8, O4 <= 0.22, CD44 <= 3.85, CD29 <= 1.56, CD133 >= -0.82, CD140a <= 0.24"
[1] "Astro-CD44+"
           
            Astro-CD44+ Others
  Gated-in          251     37
  Gated-out         149   3563
[1] "CD44 >= -0.07, GLAST <= 0.16, CD24 <= 0.26, CD133 <= 0.37, CD15 <= 0.22, CD184 <= 0.62, CD184 >= -1.02, CD71 <= 0.51, CD56 <= 0.74, HepaCAM >= -0.41, CD71 >= -0.57, O4 <= 0.7, GLAST >= -0.23"
[1] "RG-CD184+"
           
            Others RG-CD184+
  Gated-in     116       313
  Gated-out   3484        87
[1] "CD184 >= -0.08, CD24 <= 0.04, GLAST <= 0.23, CD133 <= 0.53, CD15 <= 0.28, CD71 <= 0.32, HepaCAM >= -0.22, AQP4 <= 0.34, CD56 <= 1, O4 <= 0.19, CD56 >= -0.43, CD29 <= 1.46"
[1] "RG-CD133+"
           
            Others RG-CD133+
  Gated-in      26       349
  Gated-out   3574        51
[1] "CD133 >= 0.18, GLAST <= 0.6, O4 <= 0.29, CD29 <= 0.71, CD15 <= 0.23, CD184 >= -1.13, CD71 <= 1.12, CD184 <= 0.46, CD24 <= 2.88, AQP4 <= 0.58"
[1] "Astro-Glast+"
           
            Astro-Glast+ Others
  Gated-in           345     63
  Gated-out           55   3537
[1] "GLAST >= 0.14, CD15 <= 0.42, CD71 <= 0.47, CD56 <= 0.85, CD184 >= -1.01, CD133 <= 1.44, CD24 <= 1.86, O4 <= 0.06, CD184 <= 2.94, CD29 <= 1.72, AQP4 <= 1.21, CD56 >= -0.44, CD71 >= -0.6, CD44 <= 3.8"
[1] "Endothelial"
           
            Endothelial Others
  Gated-in          365     36
  Gated-out          35   3564
[1] "CD71 >= 0.33, CD15 <= 1.45, HepaCAM >= -0.32, CD56 <= 0.72, CD44 <= 1.66, AQP4 <= 1.61, CD184 <= 1.82, CD184 >= -2.18, CD133 <= 0.79, CD29 >= -0.61, CD133 >= -0.85, GLAST <= 4.54, O4 <= 0.96"
[1] "Neurons-CD56+"
           
            Neurons-CD56+ Others
  Gated-in            284     36
  Gated-out           116   3564
[1] "CD56 >= 0.36, O4 <= 0.57, CD15 <= 1.54, CD184 <= 0.58, CD184 >= -1.6, GLAST <= 2.17, CD71 <= 2.01, CD44 <= 1.67, CD24 <= 3.77, CD133 <= 2.37, HepaCAM >= -0.33, AQP4 <= 1.6"
[1] "Neurons-CD24+CD56+"
           
            Neurons-CD24+CD56+ Others
  Gated-in                 355     41
  Gated-out                 45   3559
[1] "CD15 >= 0.3, CD56 <= 2.54, O4 <= 0.13, AQP4 <= 1.27, CD184 >= -1.11, GLAST <= 4.49, CD71 <= 1.57, CD184 <= 3.87, CD24 <= 3.13, CD133 <= 3.38, HepaCAM >= -0.5, O4 >= -0.87"
[1] "Oligo"
           
            Oligo Others
  Gated-in    400      3
  Gated-out     0   3597
[1] "O4 >= 0.63, CD71 <= 1.59, CD140a >= -0.51"
[1] "Epithelial"
           
            Epithelial Others
  Gated-in         356     10
  Gated-out         44   3590
[1] "CD184 <= -1.08, O4 <= 0.3, CD71 <= 2.3, CD15 <= 0.53, CD133 <= 1.73"

Check results

hgate_rule(hg_output)
[1] "CD184 <= -1.08, O4 <= 0.3, CD71 <= 2.3, CD15 <= 0.53, CD133 <= 1.73"

Try with the input data

# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$labels.groups)

#try all at once

cell.types <- c("Neurons-CD24+", "Astro-CD44+", "RG-CD184+", "RG-CD133+", "Astro-Glast+","Endothelial","Neurons-CD56+","Neurons-CD24+CD56+","Oligo","Epithelial")


# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}
[1] "Neurons-CD24+"
           
            Neurons-CD24+ Others
  Gated-in            353     42
  Gated-out            47   3558
[1] "CD24 >= 10992.65, GLAST <= 5132.78, CD71 <= 13108.46, CD56 <= 37819.58, CD133 <= 8775.82, CD184 >= -3750.64, CD15 <= 17650.64, HepaCAM >= -2145.39, CD184 <= 39845.06, O4 <= 4552.8, CD44 <= 348666.71, CD29 <= 40777.53, CD133 >= -5403.91, CD140a <= 1365.04"
[1] "Astro-CD44+"
           
            Astro-CD44+ Others
  Gated-in          251     37
  Gated-out         149   3563
[1] "CD44 >= 53623.97, GLAST <= 3465.22, CD24 <= 15543.06, CD133 <= 8702.35, CD15 <= 15016.15, CD184 <= 11337.03, CD184 >= -3371.55, CD71 <= 14102.01, CD56 <= 29289.69, HepaCAM >= -1980.29, CD71 >= -5938.37, O4 <= 12036.54, GLAST >= -720.57"
[1] "RG-CD184+"
           
            Others RG-CD184+
  Gated-in     116       313
  Gated-out   3484        87
[1] "CD184 >= 5062.26, CD24 <= 9848.79, GLAST <= 4154.31, CD133 <= 10682.17, CD15 <= 17402.76, CD71 <= 10618.36, HepaCAM >= -798.72, AQP4 <= 28437.97, CD56 <= 35617.38, O4 <= 4113.55, CD56 >= 84.74, CD29 <= 38868.48"
[1] "RG-CD133+"
           
            Others RG-CD133+
  Gated-in      26       349
  Gated-out   3574        51
[1] "CD133 >= 6500.82, GLAST <= 8118.91, O4 <= 5626.44, CD29 <= 25215.51, CD15 <= 15633.17, CD184 >= -4352.51, CD71 <= 25566.07, CD184 <= 9930.06, CD24 <= 83720.23, AQP4 <= 39820.36"
[1] "Astro-Glast+"
           
            Astro-Glast+ Others
  Gated-in           345     63
  Gated-out           55   3537
[1] "GLAST >= 3214.12, CD15 <= 22426.07, CD71 <= 13412.42, CD56 <= 31883.42, CD184 >= -3290.89, CD133 <= 21470.64, CD24 <= 57215.61, O4 <= 2218.76, CD184 <= 32144.34, CD29 <= 43743.48, AQP4 <= 69966.97, CD56 >= 7.5, CD71 >= -6646.57, CD44 <= 345007.76"
[1] "Endothelial"
           
            Endothelial Others
  Gated-in          365     36
  Gated-out          35   3564
[1] "CD71 >= 10724.38, CD15 <= 59777.53, HepaCAM >= -1384.49, CD56 <= 28785.13, CD44 <= 183944, AQP4 <= 89341.93, CD184 <= 22086.07, CD184 >= -13751.17, CD133 <= 13757.14, CD29 >= 953.64, CD133 >= -5808.62, GLAST <= 49558.85, O4 <= 15918.13"
[1] "Neurons-CD56+"
           
            Neurons-CD56+ Others
  Gated-in            284     36
  Gated-out           116   3564
[1] "CD56 >= 19761.3, O4 <= 9958.31, CD15 <= 63114, CD184 <= 10972.48, CD184 >= -8559.27, GLAST <= 24606.12, CD71 <= 42238.55, CD44 <= 184574.3, CD24 <= 106982.1, CD133 <= 32481.14, HepaCAM >= -1472.53, AQP4 <= 88789.06"
[1] "Neurons-CD24+CD56+"
           
            Neurons-CD24+CD56+ Others
  Gated-in                 355     41
  Gated-out                 45   3559
[1] "CD15 >= 18099.18, CD56 <= 73917.76, O4 <= 3294.99, AQP4 <= 72815.42, CD184 >= -4190.68, GLAST <= 49070.28, CD71 <= 33853.67, CD184 <= 40435.34, CD24 <= 90332.37, CD133 <= 44494.74, HepaCAM >= -2542.97, O4 >= -12231.43"
[1] "Oligo"
           
            Oligo Others
  Gated-in    400      3
  Gated-out     0   3597
[1] "O4 >= 10859.74, CD71 <= 34267.48, CD140a >= -3648.7"
[1] "Epithelial"
           
            Epithelial Others
  Gated-in         356     10
  Gated-out         44   3590
[1] "CD184 <= -3891.71, O4 <= 5819.9, CD71 <= 47633.15, CD15 <= 26226.74, CD133 <= 24914.78"

# visualize
DimPlot(seu.q)
Rasterizing points since number of points exceeds 100,000.
To disable this behavior set `raster=FALSE`

Try keeping the mix population



Idents(seu.q) <- 'Batch'
seu <- subset(seu.q, idents = c("AIW002_0306","AIW002_0317A", "AIW002_0317B"))


# downsampe to about 2000 cells so that hypergate can run
# there is an option to down sample per identity class

Idents(seu) <- 'labels.groups'
seu.down <- subset(x= seu, downsample = 400)

DimPlot(seu.down)


table(seu.down$labels.groups)

               Mix      Neurons-CD24+        Astro-CD44+          RG-CD184+          RG-CD133+ 
               400                400                400                400                400 
      Astro-Glast+        Endothelial      Neurons-CD56+ Neurons-CD24+CD56+              Oligo 
               400                400                400                400                  8 
        Epithelial 
               135 
# keeping mix in 

# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$labels.groups)

#try all at once

cell.types <- c("Neurons-CD24+", "Astro-CD44+", "RG-CD184+", "RG-CD133+", "Astro-Glast+","Endothelial","Neurons-CD56+","Neurons-CD24+CD56+","Oligo","Epithelial","Mix")


# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}
[1] "Neurons-CD24+"
           
            Neurons-CD24+ Others
  Gated-in            343     37
  Gated-out            57   3306
[1] "CD24 >= 13299.18, CD71 <= 15020.33, GLAST <= 6247.85, CD133 <= 9075.28, CD56 <= 31399.06, CD184 >= -1546.79, CD15 <= 25893.42, CD44 <= 279215.74, HepaCAM >= -1677.41, CD140a <= 456.65, CD29 <= 25418.07, GLAST >= -6297.82, CD184 <= 30881.18, CD56 >= 35.82, CD133 >= -4171.97, CD71 >= -5082.63, AQP4 <= 44884.91"
[1] "Astro-CD44+"
           
            Astro-CD44+ Others
  Gated-in          249     57
  Gated-out         151   3286
[1] "CD44 >= 67231.91, CD24 <= 15019.02, GLAST <= 2950.76, CD133 <= 7876.55, CD15 <= 23409.98, CD184 <= 15830.88, CD71 <= 13573.62, CD56 <= 23862.51, CD184 >= -1888.38, AQP4 <= 40708.91, CD24 >= -9261.84, GLAST >= -2178.31, CD71 >= -4063.16"
[1] "RG-CD184+"
           
            Others RG-CD184+
  Gated-in      73       278
  Gated-out   3270       122
[1] "CD184 >= 6073.9, CD44 <= 126351.5, GLAST <= 3994.58, CD24 <= 16035.55, CD133 <= 8692.97, CD15 <= 18750.23, CD71 <= 14692.06, CD56 <= 21797.38, CD29 <= 20239.1, AQP4 <= 37590.73, HepaCAM <= 4516.48, CD133 >= -4012.55, HepaCAM >= -1953.82"
[1] "RG-CD133+"
           
            Others RG-CD133+
  Gated-in      40       323
  Gated-out   3303        77
[1] "CD133 >= 8627.78, HepaCAM <= 2157.11, CD15 <= 56587.93, CD71 <= 39815.22, CD56 <= 33589.49, GLAST <= 12828.36, CD184 <= 36549.83, CD24 <= 97777.61, CD44 <= 421935.83, HepaCAM >= -2818.49, CD140a <= 1372"
[1] "Astro-Glast+"
           
            Astro-Glast+ Others
  Gated-in           337     39
  Gated-out           63   3304
[1] "GLAST >= 3625.45, CD15 <= 16184.68, CD71 <= 11501.71, CD133 <= 11466.51, CD56 <= 19596.94, CD44 <= 193034.13, CD184 >= -1649.41, CD184 <= 22766.53, CD24 <= 73144.92, O4 >= -1096.3, AQP4 <= 59695.93"
[1] "Endothelial"
           
            Endothelial Others
  Gated-in          354     23
  Gated-out          46   3320
[1] "CD71 >= 11486.95, CD133 <= 18008.6, CD44 <= 187161.1, CD15 <= 15202.57, O4 >= -529.86, GLAST <= 20353.68, CD56 <= 19264.8, CD184 <= 15685.25, CD133 >= -2747.32, CD24 <= 88581.42"
[1] "Neurons-CD56+"
           
            Neurons-CD56+ Others
  Gated-in            321     59
  Gated-out            79   3284
[1] "CD56 >= 8957.62, CD184 <= 8852.42, CD44 <= 86702.53, CD24 <= 26722.11, GLAST <= 4678.76, CD184 >= -3983.86, AQP4 <= 29543.21, CD15 <= 18438.7, CD71 <= 17751.72, CD133 <= 9807.53, CD29 <= 41638.86, CD133 >= -5725.73, GLAST >= -8086.99, HepaCAM >= -1686.16"
[1] "Neurons-CD24+CD56+"
           
            Neurons-CD24+CD56+ Others
  Gated-in                 366     38
  Gated-out                 34   3305
[1] "CD15 >= 15448.83, CD184 <= 21844.01, CD56 <= 49269.52, CD184 >= -4643.18, CD44 <= 586424.5, HepaCAM <= 4546.85, CD133 <= 55018.56, GLAST >= -161.43, CD29 <= 33451.07"
[1] "Oligo"
           
            Oligo Others
  Gated-in      8      0
  Gated-out     0   3735
[1] "O4 >= 28627.18, CD184 <= 35880.61"
[1] "Epithelial"
           
            Epithelial Others
  Gated-in         105      1
  Gated-out         30   3607
[1] "CD184 <= -4039.86, CD133 <= 7185.97, CD15 <= 20078.87"
[1] "Mix"
           
             Mix Others
  Gated-in   327     55
  Gated-out   73   3288
[1] "CD184 <= 5425.46, CD71 <= 9294.58, CD56 <= 7935.53, CD15 <= 9816.53, CD24 <= 11251.01, CD133 <= 5467.01, GLAST <= 2795.06, CD44 <= 54539.26, CD184 >= -3255.68, HepaCAM >= -1369.28, GLAST >= -1354.1, HepaCAM <= 2797.74, CD133 >= -4223.92, AQP4 >= -9847.13, AQP4 <= 35620.79, O4 >= -564.51"

Try with main groups Neurons1, Neurons2, Astro, RG

Repeat with more populations


# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$cell.types)

#try all at once

cell.types <- c("Neurons1","Neurons2","Neurons3","Astro1","Astro2","Astro3","RG1","RG2","Endothelial","Oligo","Epithelial","Mix")
# 11 possible populations



# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}
[1] "Neurons1"
           
            Neurons1 Others
  Gated-in       687    100
  Gated-out      113   8425
[1] "CD24 >= 12014.34, GLAST <= 7453.9, CD71 <= 12564.71, CD15 <= 22761.75, CD56 <= 36564.79, HepaCAM >= -1684.77, CD133 <= 12759.62, CD184 <= 18942.3, CD184 >= -2138.54, CD44 <= 297781.4, CD29 <= 49937.91, GLAST >= -1282.38, AQP4 <= 61073.35, O4 <= 3770.64, AQP4 >= -12431.75, CD71 >= -5985.69"
[1] "Neurons2"
           
            Neurons2 Others
  Gated-in       592     74
  Gated-out      208   8451
[1] "CD56 >= 13318.21, O4 <= 10932.92, CD184 <= 5351.79, CD15 <= 49168.46, CD184 >= -6786.01, CD133 <= 12046.57, GLAST <= 13007.98, CD44 <= 74315.83, CD71 <= 34112.72, CD24 <= 60858.65, AQP4 <= 50959, CD29 <= 92397.27, CD15 >= -7222.9, GLAST >= -12729.57"
[1] "Neurons3"
           
            Neurons3 Others
  Gated-in       700    109
  Gated-out      100   8416
[1] "CD15 >= 20309.73, CD56 <= 74120.32, CD29 <= 26938.11, GLAST <= 58718.23, O4 <= 6609.57, AQP4 <= 129969.5, CD71 <= 32679.15, CD24 <= 67320, HepaCAM >= -2542.97, CD133 <= 57096.16, CD24 >= -9307.03, CD133 >= -4821.08, CD44 <= 384836.99"
[1] "Astro1"
           
            Astro1 Others
  Gated-in     641     97
  Gated-out    159   8428
[1] "CD44 >= 52004.22, CD184 <= 9251.06, CD24 <= 13080.97, CD133 <= 6711.26, CD15 <= 17193.3, CD29 <= 33110.76, GLAST <= 2848.22, CD71 <= 15857.61, CD184 >= -4062.91, CD44 <= 219347.5, CD56 <= 20286.14, AQP4 <= 27096.05, HepaCAM >= -2556.43, O4 <= 2417.98, CD71 >= -5074.63"
[1] "Astro2"
           
            Astro2 Others
  Gated-in     676    157
  Gated-out    124   8368
[1] "GLAST >= 4033.5, CD15 <= 48464.92, CD71 <= 15797.33, CD29 <= 35236.34, CD56 <= 46998.72, AQP4 <= 59695.93, CD184 >= -1807.47, O4 <= 15459.24, CD184 <= 31411.07, CD133 <= 21956.42, HepaCAM >= -1690.14, CD140a >= -3404.48, CD44 <= 235717.5, CD29 >= -375.6, CD24 <= 117672.6, CD15 >= -4058.33, CD71 >= -5651.4"
[1] "Astro3"
           
            Astro3 Others
  Gated-in     407    131
  Gated-out    393   8394
[1] "CD44 >= 146227.15, CD15 <= 69782.85, CD24 <= 30924.01, CD184 <= 29629.62, CD133 <= 23287.65, GLAST <= 8669.22, CD71 <= 36846.73, CD29 >= -689.18, CD15 >= -3247.74, AQP4 >= -14073.6, CD140a <= 2373.41, O4 <= 3402.92, CD24 >= -10546.65"
[1] "RG1"
           
            Others  RG1
  Gated-in     202  497
  Gated-out   8323  303
[1] "CD184 >= 7583.17, CD24 <= 19506.57, GLAST <= 5172.54, CD44 <= 189251.59, CD15 <= 22986.63, CD133 <= 9112.48, CD71 <= 13843.7, AQP4 <= 34895.56, HepaCAM >= -936.43, CD29 <= 52709.4, CD56 <= 61458.28, CD140a >= -1942.95, O4 <= 3452.21, CD140a <= 2849.82"
[1] "RG2"
           
            Others  RG2
  Gated-in      43  663
  Gated-out   8482  137
[1] "CD133 >= 6424.8, O4 <= 19514.81, CD15 <= 27225.74, CD71 <= 13565.01, GLAST <= 9495.54, CD29 <= 24941.7, CD184 <= 11538.86, AQP4 <= 33753.97, CD184 >= -2777.42, CD24 <= 42787.99, CD56 <= 29662.31, CD44 <= 249589.8, HepaCAM >= -1654.3, CD29 >= 207.6, HepaCAM <= 4835.01"
[1] "Endothelial"
           
            Endothelial Others
  Gated-in          721    101
  Gated-out          79   8424
[1] "CD71 >= 10609.24, CD56 <= 32882.35, CD44 <= 161280.51, CD184 >= -11649.16, GLAST <= 21180.63, CD15 <= 30752.77, O4 <= 21532.58, CD133 <= 43370.79, AQP4 <= 120325.42, CD29 <= 76859.94, HepaCAM >= -1710.35, CD184 <= 33308.03, AQP4 >= -15507.5, CD24 <= 176991.1"
[1] "Oligo"
           
            Oligo Others
  Gated-in    800      8
  Gated-out     0   8517
[1] "O4 >= 10859.74, CD24 <= 79343.15, GLAST <= 22891.68"
[1] "Epithelial"
           
            Epithelial Others
  Gated-in         460      7
  Gated-out         65   8793
[1] "CD184 <= -4151.27, O4 <= 5819.9, AQP4 <= 89898.11, CD71 <= 47633.15, CD44 <= 214766.4, CD56 <= 36845.83, CD15 <= 26226.74, CD133 <= 24914.78"
[1] "Mix"
           
             Mix Others
  Gated-in   610    104
  Gated-out  190   8421
[1] "CD56 <= 10211.03, CD184 <= 5139.33, CD133 <= 4707.85, CD44 <= 56043.53, GLAST <= 2098.57, CD24 <= 8364.47, CD184 >= -3392.68, CD71 <= 9031.62, CD15 <= 10275.57, O4 >= -1903.16, O4 <= 4859.84, AQP4 <= 39070.41, CD29 <= 49783.17, AQP4 >= -8978.09, HepaCAM <= 2949.62, CD29 >= -1163.49, CD133 >= -4899.45"

Load in libraries

require("reshape2") #visualization
Loading required package: reshape2
require("flowStats") #Alignment functions
Loading required package: flowStats
require("scales") #scale colour intensity for visualization
Loading required package: scales
require("dplyr")
Loading required package: dplyr
Warning: package ‘dplyr’ was built under R version 4.1.2

Attaching package: ‘dplyr’

The following objects are masked from ‘package:stats’:

    filter, lag

The following objects are masked from ‘package:base’:

    intersect, setdiff, setequal, union
library("hypergate")
library("Seurat")
Warning: package ‘Seurat’ was built under R version 4.1.2
Attaching SeuratObject

Read in the data for gating

seu.r <- readRDS("/Users/rhalenathomas/Documents/Data/FlowCytometry/PhenoID/Analysis/9MBO/prepro_outs/clusters/AllcellLablesMarch25.Rds")
Warning: stack imbalance in '<-', 2 then 4

I”m going to run the hypergates again - maybe multiple times to see how consitatant to output will be



Idents(seu.r) <- 'cell.types'
i = 300
set.seed(i)
seu.down <- subset(x= seu.r, downsample = 200)


# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$cell.types)

#try all at once

cell.types <- c("Neurons1","Neurons2","Neurons3","Astro1","Astro2","Astro3","RG1","RG2","Endothelial","Oligo","Epithelial","Mix")
# 11 possible populations



# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}
[1] "Neurons1"
           
            Neurons1 Others
  Gated-in       177     10
  Gated-out       23   2190
[1] "CD24 >= 13768.18, GLAST <= 6532.14, CD71 <= 14511.02, CD15 <= 29892.06, CD133 <= 10724.63, CD56 <= 36819.98, HepaCAM >= -1296.45, CD184 >= -4583.34, CD29 <= 33528.68, CD184 <= 26416.42, CD44 <= 235085.5, GLAST >= -696.95, AQP4 <= 43922.06"
[1] "Neurons2"
           
            Neurons2 Others
  Gated-in       164      9
  Gated-out       36   2191
[1] "CD56 >= 11467.62, O4 <= 4980.29, CD15 <= 27532.65, CD184 >= -4246.8, CD140a >= -2207.93, CD184 <= 4810.4, CD133 <= 11653.95, CD44 <= 94883.57, GLAST <= 10573.34, CD71 <= 81257.09, CD24 <= 79820.24, CD133 >= -4507.04, HepaCAM <= 4810.69"
[1] "Neurons3"
           
            Neurons3 Others
  Gated-in       174     14
  Gated-out       26   2186
[1] "CD15 >= 20912.51, GLAST <= 27110.83, HepaCAM <= 3711.66, CD56 <= 81379.32, CD133 >= -2782.85, CD24 <= 91855.94, CD140a <= 1395.53, O4 <= 6609.57"
[1] "Astro1"
           
            Astro1 Others
  Gated-in     162     12
  Gated-out     38   2188
[1] "CD44 >= 56591.37, CD133 <= 5938.13, CD184 <= 11559.47, CD24 <= 12227.97, CD29 <= 21481.8, CD15 <= 11202.52, CD184 >= -2372.25, CD71 <= 12071.88, GLAST <= 4158.8, CD44 <= 208706.6, HepaCAM >= -1164.12, AQP4 <= 23637.02, CD56 <= 17624.81"
[1] "Astro2"
           
            Astro2 Others
  Gated-in     169     21
  Gated-out     31   2179
[1] "GLAST >= 3637.79, CD15 <= 18398.54, CD29 <= 25116.69, CD71 <= 17606.01, CD56 <= 29675.18, CD24 <= 45161.19, CD184 <= 28293.85, CD184 >= -1759.5, O4 <= 3344.42, CD133 <= 23488.65, HepaCAM >= -1260.12, AQP4 <= 65021.79"
[1] "Astro3"
           
            Astro3 Others
  Gated-in      92     22
  Gated-out    108   2178
[1] "CD44 >= 147465.5, CD24 <= 16082.73, CD15 <= 26416.42, CD24 >= -3042.91, CD184 <= 42234.54, CD133 <= 15396.03, CD71 <= 16901.3, CD29 >= -405.62, CD71 >= -5047.31, O4 <= 4040.76"
[1] "RG1"
           
            Others  RG1
  Gated-in      38  122
  Gated-out   2162   78
[1] "CD184 >= 6652.03, CD24 <= 8437.13, CD133 <= 9089.13, CD15 <= 9000.35, GLAST <= 6168.13, HepaCAM >= -650.54, AQP4 <= 25403.45, CD29 <= 27345.65, CD71 <= 14089.39, CD44 <= 337212.4, CD56 <= 29969.06, CD140a >= -2399.99"
[1] "RG2"
           
            Others  RG2
  Gated-in       8  180
  Gated-out   2192   20
[1] "CD133 >= 7355.82, CD29 <= 21800.4, GLAST <= 5038.9, O4 <= 3086.43, CD15 <= 14869.81, CD71 <= 23635.28, CD184 >= -3013.57, AQP4 <= 54441.39, CD140a <= 977.9, CD184 <= 24178.96, CD44 <= 214500.5"
[1] "Endothelial"
           
            Endothelial Others
  Gated-in          182     22
  Gated-out          18   2178
[1] "CD71 >= 11682.33, O4 <= 2614.47, CD15 <= 21782.44, CD184 <= 15065.71, CD184 >= -8125.55, GLAST <= 17202.79, AQP4 <= 149799.8, CD24 >= -8685.52, CD133 >= -3085.96"
[1] "Oligo"
           
            Oligo Others
  Gated-in    200      0
  Gated-out     0   2200
[1] "O4 >= 10768.08, CD71 <= 30969.27, AQP4 <= 232540.9"
[1] "Epithelial"
           
            Epithelial Others
  Gated-in         176      0
  Gated-out         24   2200
[1] "CD184 <= -4593.41, O4 <= 5819.9, CD29 <= 67460.48, CD71 <= 45227.99"
[1] "Mix"
           
             Mix Others
  Gated-in   162     19
  Gated-out   38   2181
[1] "CD56 <= 9565.82, CD44 <= 56043.53, GLAST <= 1838.73, CD133 <= 5840.58, CD184 >= -3392.68, CD184 <= 4747.07, CD24 <= 10921.39, CD71 <= 8865.49, CD15 <= 10275.57, O4 >= -1903.16, CD29 <= 42997.34, O4 <= 4859.84, AQP4 <= 32325, HepaCAM <= 2446.18, CD140a <= 1378.82, CD29 >= -259.6"

Try using the smaller labeled object - will still need to subset Also make groupings of cells


seu <- readRDS("/Users/rhalenathomas/Documents/Data/FlowCytometry/PhenoID/Analysis/9MBO/prepro_outsjan20-9000cells/Figure3/Louvkn60DifferentCellLabels220220318.Rds")

AB <- c("CD24","CD56","CD29","CD15","CD184","CD133","CD71","CD44","GLAST","AQP4","HepaCAM", "CD140a","O4")

#DimPlot(seu)
#DoHeatmap(seu, features = AB)

Run with different cutoff of cells in down sampling


unique(seu$labels6)
 [1] Neurons-Mix  Astro-2      RG-2         Astro-1      Neurons      Mix          NPC          RG-1        
 [9] RG-3         Endothelial  Oligo        EarlyNeurons Epithelial   OPC         
14 Levels: Mix RG-1 Neurons-Mix Neurons NPC Astro-1 Astro-2 RG-2 EarlyNeurons RG-3 Endothelial Oligo ... Epithelial

Relabel cell type groups

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
  # visualize the predicted cells 
  predicted.cell.type = paste(cell,"gated",sep=".")
  seu.down <- AddMetaData(object=seu.down, metadata=gating_predicted, col.name = predicted.cell.type )
  print(DimPlot(seu.down, group.by = predicted.cell.type, split.by = 'gating.main'))
  
  
  
}
[1] "glia"
           
            glia Others
  Gated-in   278    116
  Gated-out  222   2884
[1] "CD184 >= 4048.93, CD44 <= 81024.25, CD133 <= 8220.56, CD24 <= 13471.48, CD15 <= 21063.09, CD56 <= 25971.81, O4 >= -496.34, CD15 >= -4296.1, CD29 <= 77817.9, CD44 >= -23.89"
[1] "RG2"
           
            Others  RG2
  Gated-in      43  467
  Gated-out   2957   33
[1] "CD133 >= 6734, CD15 <= 23722, CD24 <= 31379.93, CD56 <= 38834.67, CD71 <= 28283.44, CD44 <= 322230.73, CD184 <= 35943.31, GLAST <= 13336.77, CD29 >= -410.35, HepaCAM >= -1703.95, CD56 >= 242.82, CD140a >= -4185.26"
[1] "Neurons1"
           
            Neurons1 Others
  Gated-in       414     66
  Gated-out       86   2934
[1] "CD56 >= 12342.8, CD184 <= 7771.36, CD15 <= 30861.38, CD133 <= 11000.77, CD44 <= 94073.69, O4 <= 11278.24, CD29 >= -235125.35, CD24 <= 99632.47, HepaCAM <= 2868.25, CD184 >= -5162.05, CD71 <= 42344.32, GLAST <= 20894.66"
[1] "Neurons2"
           
            Neurons2 Others
  Gated-in       452     47
  Gated-out       48   2953
[1] "CD24 >= 10365.89, CD56 <= 34448.68, CD15 <= 23516.48, CD133 <= 22687.34, CD44 <= 338951.58, CD71 <= 18026.04, CD184 <= 27749.83, CD140a <= 886.33, CD44 >= -183.98, HepaCAM <= 4544.73, GLAST <= 5705.44"
[1] "Neurons3"
           
            Neurons3 Others
  Gated-in       452     59
  Gated-out       48   2941
[1] "CD15 >= 18346.88, CD56 <= 116929.7, AQP4 <= 59436.34, CD24 <= 152360.23, CD133 <= 46426.43, CD71 <= 20689.09, O4 <= 4375.6, HepaCAM >= -1869.01"
[1] "Astro"
           
            Astro Others
  Gated-in    451     62
  Gated-out    49   2938
[1] "CD44 >= 81568.02, CD24 <= 13706.44, CD15 <= 23786.78, CD133 <= 8845.81, CD56 <= 24286.68, CD184 <= 20615.25, GLAST <= 6491.94, AQP4 <= 48746.29, CD71 <= 19185.12, CD184 >= -5120.87, HepaCAM >= -2920.13"

The glia is only 50/50 and no good The other cell type accuracy is high

Try plotting the results to see where the labelled cells end up

Instead of subsampling in advance I can sample using hgate_sample to also sample negative events. This just gives you an idea of how many cells you need to sample


input.xm = as.matrix(GetAssayData(seu, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu$gating.main)

# hypergate( xp = matrix, gate_vector = labels, level = thing to gate)
sample = hgate_sample(gate_vector = cluster.labels, level = "Astro1", size=1000)


tab = table(ifelse(sample, "In", "Out"), ifelse(cluster.labels == "Astro1", "Positive pop.", "Negative pop."))
tab[1, ]/colSums(tab)  ## Fraction of subsampled events for positive and negative populations
Negative pop. Positive pop. 
    0.1299577     0.1299545 
---
title: "R Notebook"
output: html_notebook
---



```{r}
#install 

# dependencies
install.packages(c("sp", "polyclip", "rgeos"))



# package from github

library(devtools)
install_github(repo = "ebecht/hypergate")


library("Seurat")
library("ggplot2")
library("dplyr")


```

Hypergate takes in 
1. an expression matrix
2. a vector of events to attempt to gate on - there are different ways to get these

interactive gating - try later
Clustering - this is what I want to use

hypergate is the function to optomize gating strategies

xp = a numberic matrix encoding expression 
gate_vector a vector with a few unique values --- this should be the cluster labels
level specifies what value of gate vector togate upon 

```{r}
library("hypergate")

input.xm = as.matrix(GetAssayData(seu.q, slot = 'scale.data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.q$labels)


hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = 'Astro1')

# writing level = 1 resulted empty output
# putting 'Astro1' is running but taking a very long time
# I believe I will have to down sample the Seurat object.  I thing I might want to subset the AIW002 first




```


I'll need to downsample the seurat object

```{r}
Idents(seu.q) <- 'Batch'

unique(seu$Batch)
# subset the AIW because we will use AIW in the FACS experiment

seu <- subset(seu.q, idents = c("AIW002_0306","AIW002_0317A", "AIW002_0317B"))

# downsampe to about 2000 cells so that hypergate can run
# there is an option to down sample per identity class

Idents(seu) <- 'labels'
seu.down <- subset(x= seu, downsample = 200)

DimPlot(seu.down)




```

```{r}
# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'scale.data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$labels)


hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = 'Astro1')



```






Try checking the results

```{r}

gating_predicted = subset_matrix_hg(hg_output,xm.t)


table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels == 
    'Astro1', "Events of interest", "Others"))

# as we started with 200 astro1 we captured a good amount


```

Now we can see if each cell past parameters for the threshold for each AB

```{r}

bm = boolmat(gate = hg_output, xp = xm.t)
head(bm)



```

Plots some gates


```{r}

plot_gating_strategy(gate = hg_output, xp = xm.t, gate_vector = cluster.labels, 
    level = 'Astro1', highlight = "firebrick3")

```

Channel contributions

```{r}

contributions = channels_contributions(gate = hg_output, xp = xm.t, gate_vector = cluster.labels, 
    level = 'Astro1', beta = 1)
barplot(contributions, horiz = TRUE, 
    xlab = "F1-score deterioration when the parameter is ignored")
print(contributions)

```

We could reoptimize using only the top 4 
But right now I'll leave this


```{r}
hgate_pheno(hg_output)

```

```{r}
hgate_rule(hg_output)
```

```{r}
hgate_info(hg_output)  # make a helpful table 
```

I need to define the groups I want to gate first and then use this to gate them. 

```{r}
AB.order <- c("CD24","CD56","CD29","CD15","CD184","CD133","CD71","CD44","GLAST","AQP4","HepaCAM", "CD140a","O4")


RidgePlot(seu.down, features = "CD44", log = TRUE )
RidgePlot(seu.down, features = "CD24", log = TRUE )


```

Regroup the similar for gating and remove mix cells that might confuse

```{r}


Idents(seu.q) <- 'labels.groups'
seu <- subset(x= seu.q, idents = c("Neurons-CD24+","Astro-CD44+","RG-CD184+","RG-CD133+","Astro-Glast+","Astro-CD44+","RG-CD184+","Astro-CD44+","Endothelial","Astro-CD44+","Neurons-CD56+","Neurons-CD24+CD56+","Neurons-CD56+","Astro-CD44+","Neurons-CD56+","Neurons-CD24+","RG-CD133+","Oligo","Epithelial","Neurons-CD24+CD56+")) 

DimPlot(seu, label = TRUE, repel = TRUE)

Idents(seu) <- 'Batch'
seu <- subset(seu.q, idents = c("AIW002_0306","AIW002_0317A", "AIW002_0317B"))


# downsampe to about 2000 cells so that hypergate can run
# there is an option to down sample per identity class

Idents(seu) <- 'labels.groups'
seu.down <- subset(x= seu, downsample = 400)

DimPlot(seu.down)

table(seu.down$labels.groups)




```
Hypergate on one group

```{r}
# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'scale.data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$labels.groups)

#try all at once

cell.types <- c("Neurons-CD24+", "Astro-CD44+", "RG-CD184+", "RG-CD133+", "Astro-Glast+","Endothelial","Neurons-CD56+","Neurons-CD24+CD56+","Oligo","Epithelial")

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  plot_gating_strategy(gate = hg_output, xp = xm.t, gate_vector = cluster.labels, 
    level = cell, highlight = "firebrick3")
  gate.table <- hgate_info(hg_output) 
  print(gate.table)
}


# this prints the threshold for each gate
hgate_rule(hg_output)

# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}






```

Check results

```{r}
gating_predicted = subset_matrix_hg(hg_output,xm.t)


table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels == 
    'Astro-CD44+', "Events of interest", "Others"))

#not great accuracy

bm = boolmat(gate = hg_output, xp = xm.t)
head(bm)

plot_gating_strategy(gate = hg_output, xp = xm.t, gate_vector = cluster.labels, 
    level = 'Astro-CD44+', highlight = "firebrick3")

contributions = channels_contributions(gate = hg_output, xp = xm.t, gate_vector = cluster.labels, 
    level = 'Astro-CD44+', beta = 1)
barplot(contributions, horiz = TRUE, 
    xlab = "F1-score deterioration when the parameter is ignored")
print(contributions)

hgate_pheno(hg_output)

hgate_rule(hg_output)

gate.table <- hgate_info(hg_output)  # make a helpful table 


```



Try with the input data
```{r}
# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$labels.groups)

#try all at once

cell.types <- c("Neurons-CD24+", "Astro-CD44+", "RG-CD184+", "RG-CD133+", "Astro-Glast+","Endothelial","Neurons-CD56+","Neurons-CD24+CD56+","Oligo","Epithelial")


# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
  # save files with the plots 
}



```

```{r}

# visualize
DimPlot(seu.q)

```
Try keeping the mix population

```{r}


Idents(seu.q) <- 'Batch'
seu <- subset(seu.q, idents = c("AIW002_0306","AIW002_0317A", "AIW002_0317B"))


# downsampe to about 2000 cells so that hypergate can run
# there is an option to down sample per identity class

Idents(seu) <- 'labels.groups'
seu.down <- subset(x= seu, downsample = 400)

DimPlot(seu.down)

table(seu.down$labels.groups)


```


```{r}
# keeping mix in 

# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$labels.groups)

#try all at once

cell.types <- c("Neurons-CD24+", "Astro-CD44+", "RG-CD184+", "RG-CD133+", "Astro-Glast+","Endothelial","Neurons-CD56+","Neurons-CD24+CD56+","Oligo","Epithelial","Mix")


# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}


# having the mix cells in make no difference


```


Try with main groups Neurons1, Neurons2, Astro, RG

```{r}

Idents(seu.q) <- 'Batch'
seu <- subset(seu.q, idents = c("AIW002_0306","AIW002_0317A", "AIW002_0317B"))


# downsampe to about 2000 cells so that hypergate can run
# there is an option to down sample per identity class

# not enough oligo in only AIW

Idents(seu.q) <- 'labels.main.groups'
seu.down <- subset(x= seu.q, downsample = 500)

DimPlot(seu.down)

table(seu.down$labels.main.groups)




# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$labels.main.groups)

#try all at once

cell.types <- c("Neurons1","Neurons2","Astro","RG","Endothelial","Oligo","Epithelial")



# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}


# having the mix cells in makes no difference




```


Repeat with more populations

```{r}

# define more groups
#cluster.ids <- c("Mix","Neurons1","Astro1","RG1","RG2","Mix","Astro3","Astro1","RG1","Mix","Astro3","Endothelial","Astro3","Neurons2","Neurons3","Neurons2","Astro3","Neurons2","Neurons1","RG2","Oligo","Epithelial","Neurons3")

DimPlot(seu.q, label= TRUE)

Idents(seu.q) <- 'cell.types'
seu.down <- subset(x= seu.q, downsample = 800)

DimPlot(seu.down)

table(seu.down$cell.types)




# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$cell.types)

#try all at once

cell.types <- c("Neurons1","Neurons2","Neurons3","Astro1","Astro2","Astro3","RG1","RG2","Endothelial","Oligo","Epithelial","Mix")
# 11 possible populations



# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}





```

Load in libraries
```{r}
require("reshape2") #visualization
require("flowStats") #Alignment functions
require("scales") #scale colour intensity for visualization
require("dplyr")
library("hypergate")
library("Seurat")

```

Read in the data for gating

```{r}
seu.r <- readRDS("/Users/rhalenathomas/Documents/Data/FlowCytometry/PhenoID/Analysis/9MBO/prepro_outs/clusters/AllcellLablesMarch25.Rds")


```




I"m going to run the hypergates again - maybe multiple times to see how consitatant to output will be

```{r}


Idents(seu.r) <- 'cell.types'
i = 300
set.seed(i)
seu.down <- subset(x= seu.r, downsample = 200)


# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$cell.types)

#try all at once

cell.types <- c("Neurons1","Neurons2","Neurons3","Astro1","Astro2","Astro3","RG1","RG2","Endothelial","Oligo","Epithelial","Mix")
# 11 possible populations



# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
}




```



Try using the smaller labeled object - will still need to subset
Also make groupings of cells

```{r}

seu <- readRDS("/Users/rhalenathomas/Documents/Data/FlowCytometry/PhenoID/Analysis/9MBO/prepro_outsjan20-9000cells/Figure3/Louvkn60DifferentCellLabels220220318.Rds")

saveRDS(seu,"/Users/rhalenathomas/Documents/Data/FlowCytometry/PhenoID/Analysis/9MBO/prepro_outsjan20-9000cells/Figure3/Louvkn60DifferentCellLabels220220318.Rds")

AB <- c("CD24","CD56","CD29","CD15","CD184","CD133","CD71","CD44","GLAST","AQP4","HepaCAM", "CD140a","O4")

#DimPlot(seu)
#DoHeatmap(seu, features = AB)




```


Run with different cutoff of cells in down sampling


```{r}

unique(seu$labels6)

# get the cell type labels


```

Relabel cell type groups

```{r}
Idents(seu) <- "labels6"
cluster.ids <- c("Mix","RG1","Mix","Neurons1","Neurons2","Astro1","Astro2","RG2","Neuron3","RG3","Endothelial","Oligo","POC","Epithelial")

names(cluster.ids) <- levels(seu)
seu <- RenameIdents(seu, cluster.ids)
seu$gating.all <- Idents(seu)

DimPlot(seu, reduction = "umap", label = TRUE, group.by = 'gating.all', repel = TRUE)


# now fewer groups
Idents(seu) <- "labels6"
cluster.ids <- c("Mix","RG1","Mix","Neurons1","Neurons2","Astro1","Astro2","RG2","Neurons3","RG1","Endothelial","Oligo","OPC","Epithelial")
# merge cells that won't be used for gating
cluster.ids <- c("other","RG1","other","Neurons1","Neurons2","Astro1","Astro2","RG2","Neurons3","RG1","other","other","other","other")
# adjust based on hypergate results
cluster.ids <- c("other","glia","other","Neurons1","Neurons2","glia","Astro","RG2","Neurons3","glia","other","other","other","other")


names(cluster.ids) <- levels(seu)
seu <- RenameIdents(seu, cluster.ids)
seu$gating.main <- Idents(seu)

DimPlot(seu, reduction = "umap", label = TRUE, group.by = 'gating.main', repel = TRUE)

# now fewer groups
Idents(seu) <- "labels6"
cluster.ids <- c("other","RG","other","Neurons1","Neurons2","Astro","Astro","RG","Neurons1","RG","other","other","other","other")

names(cluster.ids) <- levels(seu)
seu <- RenameIdents(seu, cluster.ids)
seu$gating.4 <- Idents(seu)

DimPlot(seu, reduction = "umap", label = TRUE, group.by = 'gating.4', repel = TRUE)





```





```{r}
Idents(seu) <- 'gating.main'
i = 300
set.seed(i)
seu.down <- subset(x= seu, downsample = 500)


# try hypergate again on one group 
input.xm = as.matrix(GetAssayData(seu.down, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu.down$gating.main)

#try all at once
gating.main.celltypes <- c("RG1","RG2","Neurons1","Neurons2","Neurons3","Astro1","Astro2","Endothelial","Oligo","OPC","Epithelial")

# for gating.4
cell.types <- c("RG","Neurons1","Neurons2","Astro")
# gating more cell populations to try and get better accuracy.  

cell.types <- c("glia","RG2","Neurons1","Neurons2","Neurons3","Astro")
# note that RG1 and astro1 overlap and RG2 and astro 2 overlap a little bit
# RG1 and astro 1 are highy overlapping - merge together

# clearer output - should try make a summary of the accuray 

for (cell in cell.types) {
  hg_output <- hypergate(xp = xm.t, gate_vector = cluster.labels, level = cell)
  gating_predicted = subset_matrix_hg(hg_output,xm.t)
  conf.table <- table(ifelse(gating_predicted, "Gated-in", "Gated-out"), ifelse(cluster.labels ==  cell, cell, "Others"))
  print(cell)
  print(conf.table)
  print(hgate_rule(hg_output))
  # visualize the predicted cells 
  predicted.cell.type = paste(cell,"gated",sep=".")
  seu.down <- AddMetaData(object=seu.down, metadata=gating_predicted, col.name = predicted.cell.type )
  print(DimPlot(seu.down, group.by = predicted.cell.type, split.by = 'gating.main'))
  
  
  
}


# hypergate( xp = matrix, gate_vector = labels, level = thing to gate)




```

The glia is only 50/50 and no good
The other cell type accuracy is high





Try plotting the results to see where the labelled cells end up

```{r}
# how to see that gated populations???
# gating predicted is a logical if it is in or not
length(gating_predicted)
dim(seu.down)

# add the logical as a meta data 
seu.down <- AddMetaData(object=seu.down, metadata=gating_predicted, col.name = 'gate_predicted')



DimPlot(seu.down, group.by = 'gate_predicted', split.by = 'gating.main')


```











Instead of subsampling in advance I can sample using hgate_sample to also sample negative events. This just gives you an idea of how many cells you need to sample

```{r}
# this is just to check the frequency of events

input.xm = as.matrix(GetAssayData(seu, slot = 'data'))
xm.t <- t(input.xm)
cluster.labels <- as.vector(seu$gating.main)

# hypergate( xp = matrix, gate_vector = labels, level = thing to gate)
sample = hgate_sample(gate_vector = cluster.labels, level = "Astro1", size=1000)


tab = table(ifelse(sample, "In", "Out"), ifelse(cluster.labels == "Astro1", "Positive pop.", "Negative pop."))
tab[1, ]/colSums(tab)  ## Fraction of subsampled events for positive and negative populations

```




